CN105093790A - Light source device and projector - Google Patents
Light source device and projector Download PDFInfo
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- CN105093790A CN105093790A CN201510509307.9A CN201510509307A CN105093790A CN 105093790 A CN105093790 A CN 105093790A CN 201510509307 A CN201510509307 A CN 201510509307A CN 105093790 A CN105093790 A CN 105093790A
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- China
- Prior art keywords
- cooling air
- supply apparatus
- light supply
- row outlet
- row
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- G—PHYSICS
- G03—PHOTOGRAPHY; CINEMATOGRAPHY; ANALOGOUS TECHNIQUES USING WAVES OTHER THAN OPTICAL WAVES; ELECTROGRAPHY; HOLOGRAPHY
- G03B—APPARATUS OR ARRANGEMENTS FOR TAKING PHOTOGRAPHS OR FOR PROJECTING OR VIEWING THEM; APPARATUS OR ARRANGEMENTS EMPLOYING ANALOGOUS TECHNIQUES USING WAVES OTHER THAN OPTICAL WAVES; ACCESSORIES THEREFOR
- G03B21/00—Projectors or projection-type viewers; Accessories therefor
- G03B21/14—Details
- G03B21/16—Cooling; Preventing overheating
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- G—PHYSICS
- G03—PHOTOGRAPHY; CINEMATOGRAPHY; ANALOGOUS TECHNIQUES USING WAVES OTHER THAN OPTICAL WAVES; ELECTROGRAPHY; HOLOGRAPHY
- G03B—APPARATUS OR ARRANGEMENTS FOR TAKING PHOTOGRAPHS OR FOR PROJECTING OR VIEWING THEM; APPARATUS OR ARRANGEMENTS EMPLOYING ANALOGOUS TECHNIQUES USING WAVES OTHER THAN OPTICAL WAVES; ACCESSORIES THEREFOR
- G03B21/00—Projectors or projection-type viewers; Accessories therefor
- G03B21/14—Details
- G03B21/20—Lamp housings
- G03B21/2006—Lamp housings characterised by the light source
- G03B21/2026—Gas discharge type light sources, e.g. arcs
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- H—ELECTRICITY
- H01—ELECTRIC ELEMENTS
- H01J—ELECTRIC DISCHARGE TUBES OR DISCHARGE LAMPS
- H01J61/00—Gas-discharge or vapour-discharge lamps
- H01J61/02—Details
- H01J61/52—Cooling arrangements; Heating arrangements; Means for circulating gas or vapour within the discharge space
- H01J61/523—Heating or cooling particular parts of the lamp
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
- H04N9/00—Details of colour television systems
- H04N9/12—Picture reproducers
- H04N9/31—Projection devices for colour picture display, e.g. using electronic spatial light modulators [ESLM]
- H04N9/3141—Constructional details thereof
- H04N9/3144—Cooling systems
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- G—PHYSICS
- G03—PHOTOGRAPHY; CINEMATOGRAPHY; ANALOGOUS TECHNIQUES USING WAVES OTHER THAN OPTICAL WAVES; ELECTROGRAPHY; HOLOGRAPHY
- G03B—APPARATUS OR ARRANGEMENTS FOR TAKING PHOTOGRAPHS OR FOR PROJECTING OR VIEWING THEM; APPARATUS OR ARRANGEMENTS EMPLOYING ANALOGOUS TECHNIQUES USING WAVES OTHER THAN OPTICAL WAVES; ACCESSORIES THEREFOR
- G03B21/00—Projectors or projection-type viewers; Accessories therefor
- G03B21/14—Details
- G03B21/145—Housing details, e.g. position adjustments thereof
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- Physics & Mathematics (AREA)
- General Physics & Mathematics (AREA)
- Engineering & Computer Science (AREA)
- Multimedia (AREA)
- Signal Processing (AREA)
- Projection Apparatus (AREA)
- Non-Portable Lighting Devices Or Systems Thereof (AREA)
- Arrangement Of Elements, Cooling, Sealing, Or The Like Of Lighting Devices (AREA)
- Transforming Electric Information Into Light Information (AREA)
- General Engineering & Computer Science (AREA)
Abstract
The invention relates to a light source device and a projector. The light source device is characterized in that the device includes a reflector that reflects light received from an arc tube toward an illumination receiving area, and a housing that houses the reflector to form a space through which cooling air for cooling the arc tube flows. The housing has three delivery ports disposed side by side as ports from each of which the cooling air is delivered into the space. A first delivery port included in the three delivery ports is located such that the center of the first delivery port is disposed substantially at a position aligned with the optical axis of the arc tube. Second and third delivery ports included in the three delivery ports are disposed in the vicinity of one and the other sides of the first delivery port, respectively, with respect to the optical axis.
Description
The present invention is the divisional application proposed based on the Chinese patent application of application number 201210208321.1, June 19 2012 applying date, denomination of invention light supply apparatus and projector.
Cross reference
In July 4 in 2011 submit to Japanese patent application No.2011-148007 all disclosures all at this by reference to clearly being included in.
Technical field
The present invention is about light supply apparatus and projector.
Background technology
In prior art, known a kind of projector, comprises: light supply apparatus, modulate from then on light supply apparatus outgoing light beam to form the optic modulating device of the image light corresponding to image information and this image light to be expanded the projecting lens projecting to screen etc.Wherein, adopt the situation of the luminotron of the discharge-type of extra-high-pressure mercury vapour lamp etc. a lot of at light supply apparatus, luminotron becomes the condition of high temperature when luminescence.
Further, luminotron top easily becomes high temperature, if continuous high temperature state, can produce albefaction, and, when the bottom of illuminating part excessively becomes low temperature, can melanism be produced.When due to any one, be all the reason of devitrification, so the top of cooling luminotron, and, carry out cooling that to make bottom also can not become too low temperature be necessary.
In Patent Document 1, disclose following technology, comprise: at the housing of inner storage light-emitting pipe and principal reflection mirror, housing comprises: the cylindrical shell being arranged on the encirclement luminotron of the light outgoing front side of principal reflection mirror; With the ducting part making air circulate at the circumferencial direction of cylindrical shell arranged outside cylindrical shell, in the upper surface portion of cylindrical shell, form the upside introducing port being used for the air via ducting part being imported to cylindrical shell, upside introducing port, be formed in the central shaft relative to luminotron from the center of introducing port on the upside of during top, to the position that the upstream side of the air in ducting part is biased.According to this structure, due to the stream of ducting part can be made to shorten, the resistance of air when ducting part circulates can be reduced, fully can guarantee flow velocity and/or the flow of air when blowing to illuminating part via upside introducing port.
Prior art document
Patent documentation
[patent documentation 1] JP 2010-212186 publication
Summary of the invention
The problem that invention solves
According to patent documentation 1,1 upside introducing port is used to carry out the cooling of luminotron.Therefore, because the luminescence efficiency of luminotron (illuminating part) increases year by year, the structure of light supply apparatus of more efficient cooling luminotron problem can be become.Therefore, light supply apparatus and the projector of the cooling effectiveness that can improve luminotron is expected.
For the technical scheme of dealing with problems
The present invention is the invention at least partially for solving described problem, can realize as following application examples.
Should the light supply apparatus of use-case, it is characterized in that: comprise: the luminotron with the illuminating part of outgoing beam; Fixing luminotron, by the catoptron that light beam reflects to illuminated area side; And by storage catoptron, form the shell of the area of space that the cooling air of cooling luminotron is flowed, at shell, be set up in parallel 3 escape holes of discharging cooling air in area of space, from vertical, the center of the first row outlet in 3 escape holes, is set to roughly consistent with the optical axis of luminotron, from vertical, second row outlet, the 3rd escape hole are disposed in parallel in the both sides relative to optical axis of first row outlet respectively.
According to light supply apparatus so, from the cooling air that second row exports, the 3rd escape hole is discharged being juxtaposed on the both sides that the first row that roughly as one man arranges with the optical axis of luminotron exports, to make the mode of the cooling air that outlet is discharged from sandwich from first row flow, the discharge direction (flow direction) of cooling air can be made thus certain.Thus, if due to first row outlet is set to approximately consistent with the optical axis of luminotron, then cooling air can be made to flow to the top of luminotron, luminotron can be cooled efficiently.
In the light supply apparatus of described application examples, preferably: from vertical 3 escape holes, make cooling-air produce the stream of branch to second row outlet, the 3rd escape hole flowing, formed to first row outlet-inclined impeller vane.
According to light supply apparatus so, the stream of branch to second row outlet, the 3rd escape hole flowing is produced by making cooling-air, direction to first row outlet is formed slopely, the cooling air of discharging from second row outlet, the 3rd escape hole can be made, and export the cooling air of discharging from first row and collide and mix.Thereby, it is possible to become the cooling air comprised the effective sinuous flow of cooling.Therefore, it is possible to improve the cooling effectiveness of luminotron further.
In the light supply apparatus of described application examples, preferably: from vertical 3 escape holes, second row outlet, the 3rd escape hole, formed to first row outlet-inclined impeller vane.
According to light supply apparatus so, by second row outlet, the 3rd escape hole, when the direction to first row outlet is formed slopely, the cooling air comprised the effective sinuous flow of cooling also can be become.Therefore, it is possible to improve the cooling effectiveness of luminotron further.
In the light supply apparatus of described application examples, preferably: from vertical 3 escape holes, second row outlet, the 3rd escape hole, be roughly symmetrically formed relative to first row outlet.
According to light supply apparatus so, by by second row export, the 3rd escape hole, roughly be symmetrically formed relative to first row outlet, the cooling air of discharging from second row outlet, the 3rd escape hole can be made, and export the cooling air of discharging from first row and to collide in roughly the same position and mix.Thereby, it is possible to be easy to the flow direction of controlled cooling model wind, further steady flow direction, makes cooling air straight forward.Therefore, it is possible to cool luminotron efficiently further.
In the light supply apparatus of described application examples, preferably: 3 escape holes, be formed as the cooling air of discharging from first row outlet, the area of space between first row outlet and illuminating part, collides with the cooling air exported from second row, the 3rd escape hole is discharged.
According to light supply apparatus so, by making the cooling air of discharging from first row outlet, with the cooling air exported from second row, the 3rd escape hole is discharged, area of space between first row outlet and illuminating part collides mixing, thus, the flow direction of cooling air can be made to stablize, the cooling air comprised the effective sinuous flow of cooling can be become.And, by directly being contacted with illuminating part by this cooling air, more efficiently illuminating part can be cooled.
In the light supply apparatus of described application examples, preferably: 3 escape holes, are formed as: the position that cooling air collides, be than connecting the centre position of first row outlet and illuminating part closer to the position of first row outlet side.
According to light supply apparatus so, owing to colliding position, the position of centre position closer to first row outlet side than connecting first row outlet and illuminating part, make the cooling air of discharging from first row outlet thus, collide at the more upstream side of area of space with the cooling air exported from second row, the 3rd escape hole is discharged, can the flow direction of cooling air further in stable space region.Therefore, it is possible to more efficiently cool illuminating part.
In the light supply apparatus of described application examples, preferably: shell also has and is set to: with 3 escape holes with respect to roughly symmetrical other 3 escape holes of the surface level of optical axis.
According to light supply apparatus so, be no matter carry the upright posture of the installation surface of table etc. or be fixed to any one posture of furred ceiling posture of ceiling etc. with upright posture up and down on the contrary, 3 escape holes can both be used to cool luminotrons.Therefore, it is possible to do not cool luminotron efficiently with considering the posture difference (upright posture and furred ceiling posture) of light supply apparatus.Thereby, it is possible to realize the long lifetime of light supply apparatus.
Should the projector of use-case, it is characterized in that: comprise described arbitrary light supply apparatus, and according to image information, modulate the optic modulating device of the light beam from light supply apparatus outgoing.
According to projector so, by comprising the light supply apparatus of the cooling effectiveness that can improve luminotron, the image light of the predetermined briliancy that can project for a long time.Further, can it doesn't matter plays this effect with the posture difference of projector (upright posture and furred ceiling posture).
Accompanying drawing explanation
Fig. 1 is the figure of the schematic configuration of the projector schematically illustrating present embodiment.
Fig. 2 is the longitudinal sectional view schematically illustrating light supply apparatus main body.
Fig. 3 is the stereographic map of the surface structure representing light supply apparatus.
Fig. 4 is the vertical view from top light supply apparatus.
Fig. 5 is the stereographic map representing the first fixed frame.
Fig. 6 is the stereographic map representing the first fixed frame.
Fig. 7 is the figure of the flowing schematically illustrated from the cooling air light supply apparatus of top.
Fig. 8 is the figure of the flowing schematically illustrated from the cooling air light supply apparatus of side.
The explanation of symbol
1 projector, 5 light supply apparatuses, 5A light supply apparatus main body, 7 fixed frames, 7A first fixed frame, 8 air channels, 51 luminotrons, 52 catoptrons, 57 shells, 341 liquid crystal panels, 511 illuminating parts, 711 first row outlets, 712 second row outlets, 713 the 3rd escape holes, A lighting optical axis, Ar, Ar1, Ar2, Ar3, Ar4 cooling air, S area of space
Embodiment
Below, based on accompanying drawing, embodiment is described.
[structure of projector]
Fig. 1 is the figure of the schematic configuration of the projector 1 schematically illustrating present embodiment.Projector 1, forms the image light corresponding to image information and this image light is projected on screen (omitting diagram).Projector 1, as shown in Figure 1, roughly by forming exterior external shell 2, is arranged on the optical unit 3 of external shell 2 inside, and the formation such as cooling fan 4.
[structure of optical unit]
Optical unit 3, based on the control of control device (omitting diagram), forms image light according to image information (picture signal) and projects.Optical unit 3, as shown in Figure 1, comprises light supply apparatus 5, and has lens arra 311,312, polarization conversion device 313, the illumination optics device 31 of overlapping lens 314 and parallelizing lens 315.Further, optical unit 3, comprises and has dichronic mirror 321,322, and the look separation optics 32 of catoptron 323, and has light incident side lens 331, relay lens 333, and the relay optics 33 of catoptron 332,334.
And, optical unit 3, comprise: there are the optical devices 34 as 3 liquid crystal panels, 341,3 incident side polarization plate, 342,3 exiting side polarization plates 343 of optic modulating device and the cross dichroic prism 344 as look synthesizing optical device, and as being projected in the projecting lens 35 of projecting optical device of the image light that optical devices 34 are formed.Further, optical unit 3, comprises the optical component casing 36 each optics 31 ~ 34 being received into the precalculated position on the lighting optical axis A of inner setting.
Optical unit 3, by described structure, by the light beam that have passed through illumination optics device 31 from light supply apparatus 5 outgoing, is separated into R light at look separation optics 32, G light, 3 coloured light of B light.Further, each coloured light be separated, at each liquid crystal panel 341, modulated according to image information.Each coloured light after modulated, is synthesized as image light in cross dichroic prism 344, is projected to screen via projecting lens 35.
Further, about optics 31 ~ 35, because can be used as the optical system of various general projector, so, omit specific description, below, the structure of light supply apparatus 5 is only described.
[structure of light supply apparatus]
Fig. 2 is the longitudinal sectional view schematically illustrating light supply apparatus 5A main body.
Further, the following accompanying drawing of the present embodiment is described, in order to the convenience illustrated, uses XYZ orthogonal coordinate system to represent.Detailed, when using projector 1 as upright posture, by the direction along the light beam from light supply apparatus 5 outgoing, namely along the direction of the optical axis A of light supply apparatus 5 as Y-direction, using the direct of travel of light beam as+Y-direction.Further, using the direction along the light beam from projector 1 outgoing as X-direction, from the exit direction conduct+X-direction of the light beam of projector 1.Further, using the vertical vertical with Y-direction and X-direction as Z-direction, using upper direction (for the direction that gravity direction is contrary) as+Z-direction.Further, general+Y-direction is as front to (-Y-direction be rear to), and+X-direction is left direction (-X-direction is right direction), and+Z-direction is upper direction (-Z-direction is lower direction), suitable use.
Light supply apparatus 5, as shown in Figure 1, comprises: the light supply apparatus main body 5A with luminotron 51 and catoptron 52, and parallelizing lens 54, in addition, also comprises and these are received into inner shell 57.Luminotron 51, as shown in Figure 2, has the illuminating part 511 bloated as approximately spherical, and clip illuminating part 511, a pair sealing 512,513 of extending in the direction that is separated from each other from the two ends of illuminating part 511.Further, below, in order to the convenience illustrated, at a pair sealing 512, in 513, the sealing 512 recording front side is front seal portion 512, and the sealing 513 recording rear side is rear side sealing 513.
In the inside of illuminating part 511, configuration pair of electrodes E1, E2, at the electrode E1 of a pair, between E2, form the discharge space having enclosed the luminescent substance comprising mercury, inert gas and a small amount of halogen.Inner at each sealing 512,513, insert the metal forming 5121,5131 of the molybdenum be electrically connected respectively with electrode E1, E2, each sealing 512,513 with the end of opposition side, illuminating part 511 side, by sealings such as glass materials.
In these each metal formings 5121,5131, connect the electrode outlet line 514,515 extending to the outside of luminotron 51 respectively, when voltage is applied for these electrode outlet lines 514,515, illuminating part 511 internal illumination.Further, be arranged at the electrode outlet line 514 in front seal portion 512, connect the one end of the lead-in wire 516 be connected with the connector being configured at light supply apparatus 5 outside (omit and illustrate).
Catoptron 52, the light beam that reflection is incident, makes it focus on predetermined focal position.Further, in luminotron 51, the mode of the focal position of catoptron 52 is positioned at the luminescent center of illuminating part 511, by rear side sealing 513 by the peristome 521 of bonding agent (omitting diagram) partial fixing in the cylindrical shape of catoptron 52.
Fig. 3 is the stereographic map of the surface structure representing light supply apparatus 5, Fig. 3 (a) is the stereographic map of the top light supply apparatus 5 from front, and Fig. 3 (b) is the stereographic map of the state of being taken out from the light supply apparatus 5 shown in Fig. 3 (a) in air channel 8.Further, light supply apparatus 5 illustrates the posture state of the light supply apparatus 5 when projector 1 is arranged with upright posture.
Light supply apparatus 5, as mentioned above, comprises light supply apparatus main body 5A and parallelizing lens 54 and shell 57.Shell 57, is not only fixed on inside by light supply apparatus main body 5A storage, also supports parallel lens 54.Shell 57, as shown in Figure 3, roughly comprises fixed frame 7 and air channel 8.
Fixed frame 7, comprises the first fixed frame 7A and the second fixed frame 7B.First fixed frame 7A, consists of the stream of cooling air fixing air channel 8.Further, the first fixed frame 7A, the fixing parallelizing lens 54 of a support.Second fixed frame 7B, by covering the rear side (rear side) of catoptron 52, protection makes user directly not touch the electrode outlet line 515 extended from rear side sealing 513.Further, the second fixed frame 7B, screw is fixed on the first fixed frame 7A, integrally turns to fixed frame 7.
Further, at the second fixed frame 7B, arrange for the exterior side moving air at catoptron 52 to carry out the peristome 7B1 cooled.Further, at the second fixed frame 7B, the handle part 7B2 held when being arranged on removal light supply apparatus 5, is carried out.
[structure in air channel]
Air channel 8, as shown in Figure 3, is installed in fixed frame 7 (detailed, the upper surface portion 71 of the first fixed frame 7A described later, bottom surface sections 72 and right side face 73).Air channel 8 makes the cooling air of discharging from cooling fan 4 (with reference to Fig. 1), in the internal flow of the first fixed frame 7A.
Air channel 8 is approximately symmetrical with respect to the XY plane of lighting optical axis A, is configured to roughly U-shaped.Air channel 8, as shown in Fig. 3 (b), is configured to the state of the hollow of inner open, by being fixed on the first fixed frame 7A, forms stream.
And, in air channel 8, in upside, the part that (+X-direction) extends to the left is called as the second air channel portion 82, in downside, the part that (+X-direction) extends to the left is called as the 3rd air channel portion 83, forms peristome 811, connects the second air channel portion 82 and the 3rd air channel portion 83 and be called as the first air channel portion 81 in the upper part extended of above-below direction (Z-direction), below, suitable use.
Inner in air channel 8, in the face of peristome 811, the flowing switching part 85 being supported for rotatably mounted tabular is set.Flowing switching part 85, freely rotate centered by a pair back shaft (omitting diagram), the deadweight due to self becomes the state of rotating (for the about 45 degree of inclinations of Y-direction in present embodiment) to gravity direction.Flowing switching part 85, by rotating, becomes the state of the stream blocking below.Therefore, be the posture of any one of upright posture and furred ceiling posture regardless of projector, from the cooling air that peristome 811 flows into, collide flowing switching part 85, flow to the direction (top) contrary relative to gravity direction.
Air channel 8, as shown in Fig. 3 (b), from the direction (-X-direction) of the right side face 73 of the first fixed frame 7A, slide in the direction (+X-direction) of face 74 to the left, fixed, become to be integrated with fixed frame 7 (the first fixed frame 7A) by screw.Detailed, make the second air channel portion 82 in air channel 8 along the peristome 71A of the upper surface portion 71 of the first fixed frame 7A described later, make the 3rd air channel portion 83 in air channel 8 along the peristome (omitting diagram) of the bottom surface sections 72 of the first fixed frame 7A, from right (-X-direction) (+X-direction) slip to the left.Then, screw is fixed.
By this assembling, as shown in Fig. 3 (a), cover the upper surface portion 71 of the first fixed frame 7A and bottom surface sections 72 and right side face 73 by air channel 8.Detailed, the right side face 73 of the first fixed frame 7A is covered by the first air channel portion 81, and the upper surface portion 71 of the first fixed frame 7A is covered by the second air channel portion 82, and the bottom surface sections 72 of the first fixed frame 7A is covered by the 3rd air channel portion 83.This, as a result, form stream by right side face 73 and the first air channel portion 81, forms stream by upper surface portion 71 and the second air channel portion 82, forms stream by bottom surface sections 72 and the 3rd air channel portion 83.Thus, the cooling air flowed into from peristome 811 can flow in stream.
[structure of the first fixed frame]
Fig. 4 is the vertical view from top light supply apparatus 5.Further, the second fixed frame 7B and air channel 8 has been taken off.Fig. 5, Fig. 6 are the stereographic maps representing the first fixed frame 7A.And, Fig. 5 is, from the stereographic map of top (+Z-direction) the first fixed frame 7A of front (+Y-direction), Fig. 6 is, from the stereographic map of below (-Z-direction) the first fixed frame 7A of rear (-Y-direction)
First fixed frame 7A, keeps fixed light source apparatus main body 5A and parallelizing lens 54.First fixed frame 7A, as shown in Figure 5, is configured to have the box shape of roughly corner prism.Detailed, the first fixed frame 7A, has the upper surface portion 71 and bottom surface sections 72 that are positioned at above-below direction, and is positioned at right side face 73 and the left side face 74 of left and right directions.Further, there is the front face 75 being positioned at fore-and-aft direction and rear face 76.Further, the first fixed frame 7A, at portion 76 stationary mirror 52 below, at front face 75 keeping parallelism lens 54, forms the area of space S (reference Fig. 7) that the cooling air of cooling luminotron 51 flow.
In the upper surface portion 71 of the first fixed frame 7A, be formed in the peristome 71A of right and top opening.Peristome 71A, inaccessible by described air channel (the second air channel portion 82).So, the cooling air that will flow in air channel 8 (first air channel portion 81 and the second air channel portion 83), imports in the first fixed frame 7A.
Front face 75, as shown in Figure 5, be formed make from the light beam of the light supply apparatus main body 5A outgoing be incorporated in the first fixed frame 7A forwards through the peristome 751 of general anistree shape.Outside the front of peristome 751, form the guide portion 752 with the interior shape of roughly anistree shape.Parallelizing lens 54 is inserted into this guide portion 752 from front (+Y-direction).
After parallelizing lens 54 is inserted into guide portion 752, as shown in Figure 3, by by rectangular shape tabular, there is the parallelizing lens fixed frame 541 that elasticity forms, has peristome 5411 at central part, press from the front of parallelizing lens 54, tangle in the projection of above-below direction (upper surface portion 71, bottom surface sections 72) of the front face 75 being formed at the first fixed frame 7A.Thus, parallelizing lens 54 is supported and fixed on the front face 75 of the first fixed frame 7A.
In the peristome 71A of the first fixed frame 7A (upper surface portion 71), as Fig. 4, shown in Fig. 5, formation is set to export 711 and be disposed in parallel in 3 escape holes that second row that described first row exports the both sides relative to described optical axis A of 711 exports the 712, three escape hole 713 respectively from the first row that top (vertical) Lai Kan center is roughly consistent with lighting optical axis A.Detailed, arrange first row outlet 711, make on the vertical plane by lighting optical axis A, center is roughly consistent, and second row outlet the 712, three escape hole 713, is formed for first row outlet 711 roughly symmetrical.Further, 3 escape holes, from right side (-X-direction), according to second row outlet 712, the order of first row outlet the 711, three escape hole 713 is arranged.
Further, in peristome 71A, as shown in Fig. 4, Fig. 5,3 streams that the cooling air of flowing in air channel 8 (the second air channel portion 82) is flowed respectively to 3 escape hole branches are comprised.Detailed, as 3 streams, comprise: to the first flow path 711A of first row outlet 711 flowing, to the second stream 712A of second row outlet 712 flowing, to the 3rd stream 713A that the 3rd escape hole 713 flows.
Second stream 712A, has wall portion 7121 and groove portion 7122.Wall portion 7121, by blocking the cooling air of flowing in the second air channel portion 82, makes the cooling air of predetermined amount of flow flow to groove portion 7122, is directed into second row outlet 712.
First flow path 711A, is configured to: have wall portion 7111 and groove portion 7112, and, also there is the wall portion 7121 of formation second stream 712A.Wall portion 7111, by blocking the cooling air of the wall portion 7121 that flows in the second air channel portion 82, spans, makes the cooling air of predetermined amount of flow flow to groove portion 7112, is directed into first row outlet 711.
3rd stream 713A, is configured to have wall portion 7131 and groove portion 7132, and, also there is the wall portion 7111 forming first flow path 711A.Wall portion 7131, flowing by blocking, spanning wall portion 7121, the cooling air of 7111, make the cooling air of predetermined amount of flow flow to groove portion 7131, be directed into the 3rd escape hole 713 in the second air channel portion 82.Further, wall portion 7131, as the wall functionating of the leading section of sealing air flue 8 (the second air channel portion 82).
The wall portion 7121 of the second stream 712A and groove portion 7122, and the wall portion 7111 of the 3rd stream 713A and groove portion 7132, as shown in Figure 4, when from top, be formed as being symmetrical in lighting optical axis A, and the direction to first row outlet 711 is formed slopely.By structure like this, 2 escape holes (second row outlet the 712, three escape hole 713) of both sides are also formed slopely to first row outlet 711.Detailed, second row outlet 712 and the 3rd escape hole 713, from vertical direction (Z-direction) upper surface portion 71, centered by lighting optical axis A, have angle [alpha] respectively and be formed slopely.
According to described structure, first flow path 711A, as shown in Figure 4, wall portion 7111 and wall portion 7121, become along with advancing the state narrowed in the direction to first row outlet 711.So, from the cooling air that first row outlet 711 is discharged, become the jet flow higher than the cooling air pressure of second row outlet the 712, three escape hole 713 discharge from both sides and be discharged.
The bottom surface sections 72 of the first fixed frame 7A also formed with peristome 71A substantially in the same manner to the right and the open peristome (omit and illustrate) in below.Peristome, inaccessible by air channel 8 (the 3rd air channel portion 83).So, when projector 1 is furred ceiling state, via the peristome 811 in air channel 8, the cooling air of flowing in air channel 8 (the first air channel portion 81 and the 3rd air channel portion 83), is directed in the first fixed frame 7A.
Further, at the peristome of bottom surface sections 72, the structure same with the stream that the peristome 71A in upper surface portion 71 is formed and escape hole is formed with symmetrically at the surface level (XY plane) by lighting optical axis A.So, corresponding to 3 escape holes (first row outlet 711, second row outlet the 712, the 3rd escape hole 713), form other 3 escape holes (the 4th escape hole, the 5th escape hole, the 6th escape hole (any one is all omit diagram)) symmetrically.Further, therewith in the lump, stream (omitting diagram) is also formed respectively.
As shown in Figure 6, at the rear face 76 of the first fixed frame 7A, form the peristome 76A of the rearward substantially rectangular shape that (-Y-direction) is open.Inner at rectangular-shaped peristome 76A, have by depression single order in the maintaining part 767 that inner face side is formed.Make the leading section containing front end corner part of catoptron 52 be connected to this maintaining part 767, keep light supply apparatus main body 5A.
As shown in Figure 6, above peristome 76A (upside of luminotron 51), expose 3 escape holes (first row outlet 711, second row outlet the 712, the 3rd escape hole 713) be set up in parallel in the downside of maintaining part 767.
As shown in Figure 6,3 escape holes (first row outlet 711, second row outlet the 712, the 3rd escape hole 713), be formed in light beam through the outside of peristome 751.In other words, 3 escape holes, the light beam after being reflected by catoptron 52 through the outside in region formed.Further, the 4th escape hole, the 5th escape hole, the 6th escape hole are also similarly formed.
As shown in Fig. 5, Fig. 6, from peristome 751 substantial middle of vertical of wall that extends of facial 73 sides to the right, form rectangular-shaped peristome 731.Peristome 731, for a part for the cooling air flowed in air channel 8 (the first air channel portion 81) is discharged to the first fixed frame 7A inside (area of space S), by the cold wind of discharging, as shown in Figure 2, mainly blow to the electrode outlet line 514 of luminotron 51 (front seal portion 512) and the connecting portion of metal forming 5121 and carry out the opening that cools.
As shown in Figure 6, in the vertical substantial middle of the wall of the left side face 74 of the first fixed frame 7A, form rectangular-shaped exhausr port 741.Exhausr port 741 is for the opening that will flow at area of space S, externally discharged from the first fixed frame 7A (shell 57) by warmed-up cooling air.
[flowing of cooling air]
Fig. 7 is the figure of the flowing schematically illustrated from cooling air Ar top light supply apparatus 5.Fig. 8 is the figure of the flowing schematically illustrated from cooling air Ar side (+X-direction) light supply apparatus 5.Further, in the figure 7, represent the first fixed frame 7A and light supply apparatus main body 5A by the figure from top, represented the first fixed frame 7A and the light supply apparatus main body 5A of 3 escape hole peripheries by general profile chart.Further, in Fig. 8, light supply apparatus 5 is represented by with the cut-open view cut off out by the YZ plane of lighting optical axis A.Further, in Fig. 7, Fig. 8, the flowing of cooling air Ar is schematically illustrated by arrow.
Below, the flowing of the cooling air Ar of the cooling light supply apparatus 5 under the state arranging projector 1 with upright posture about cooling is described.
The cooling air (being designated as cooling air Ar) of discharging from cooling fan 4 (with reference to Fig. 1) flows in air channel 8 via the peristome 811 in air channel 8.Further, cooling air Ar, due to the flowing switching part 85 (with reference to Fig. 3) rotated because of deadweight, upward (+Z-direction), flows, flows into the second air channel portion 82 connected in the first air channel portion 81.
Further, from the part of the cooling air Ar that peristome 811 flows into, be discharged in area of space S via peristome 731 (with reference to Fig. 5).This cooling air, as mentioned above, by by the electrode outlet line 514 of luminotron 51 (front seal portion 512) that mainly blows to shown in Fig. 2 and the connecting portion of metal forming 5121, cooling connecting portion, carry out cooling and by the cooling air heated, being discharged to shell 57 from exhausr port 741 outside.
Flow into the cooling air Ar in the second air channel portion 82, as shown in Figure 7, by first flow path 711A, the second stream 712A, the 3rd stream 713A diverted flow, be discharged to area of space S from first row outlet 711, second row outlet the 712, the 3rd escape hole 713.Herein, the cooling air be discharged from first row outlet 711 is cooling air Ar1.Further, the cooling air be discharged from second row outlet 712 is Ar2.Further, the cooling air be discharged from the 3rd escape hole 713 is Ar3.
And, because second row outlet the 712, the 3rd escape hole 713 and the second stream 712A, the 3rd stream 713A, as mentioned above, direction to first row outlet 711 tilts (centered by lighting optical axis A, tilt with angle [alpha]) formed, as shown in Figure 7, cooling air Ar2, Ar3, from vertical direction (Z-direction) upper surface portion 71, be discharged with tilt angle alpha (angle [alpha] in surface level (XY plane)).Further, cooling air Ar1, always taking a fancy to face 71 from Vertical Square, is being discharged along the direction of lighting optical axis A.
And, as shown in Figure 8, cooling air Ar1, Ar2, Ar3, when from side (X-direction), because the position of 3 of above-below direction escape hole settings is roughly the same, so vertical plane (YZ plane) roughly the same from the angle for lighting optical axis A the side of cooling air Ar1, Ar2, Ar3 of discharging, is being discharged towards the direction of illuminating part 511.
Because from second row outlet 712,3rd escape hole 713 is discharged to cooling air Ar2, Ar3 of area of space S, for cooling air Ar1 tilt angle alpha, as shown in Figure 7, between first row outlet 711 and illuminating part 511, and export the 711 cooling air Ar1 be discharged to from first row and collide.The position of colliding is the region represented by symbol B in present embodiment.Detailed, as shown in Figure 8, region B, is be set as the line C than the centre position representing first row outlet 711 and illuminating part 511, exports the position of 711 sides near first row.
Because cooling air Ar2, Ar3, collide from both sides for cooling air Ar1,3 bursts of cooling airs (cooling air Ar1, Ar2, Ar3) become the state be mixed with.Further, the cooling air (using this cooling air as Ar4) be mixed with, as shown in Fig. 7, Fig. 8, flows towards illuminating part 511, blows to the top of illuminating part 511.Due to this cooling air Ar4, be the cooling air that 3 strands of cooling airs (cooling air Ar1, Ar2, Ar3) are mixed with, produce the effective sinuous flow composition of cooling, promote heat interchange when cooling air Ar4 collides on the top of illuminating part 511.Further, because cooling air becomes linearity flowing, flow direction is stablized, and cooling air becomes the top towards illuminating part 611.
And, collided by the position making region B export 711 sides at the line C than the centre position representing first discharge unit 711 and illuminating part 511 near first row, the flow direction of controlled cooling model wind Ar1 (cooling air Ar4) makes it be stabilized in the more upstream side of area of space S.
By cooling air Ar4 being blown to the top of illuminating part 511, the top of cooling illuminating part 511.Further, cooling air Ar4, a part also flow to the lower side of illuminating part 511, also cools the bottom of illuminating part 511.Further, also inner all by cooling air Ar4, cooling space region S.Further, cool various piece and by the cooling air Ar4 heated, discharge to the outside of shell 57 from the peristome 521 (with reference to Fig. 2) of exhausr port 741 (with reference to Fig. 6) and catoptron 52.
And, in described, flowing about the cooling air Ar for cooling the light supply apparatus 5 when arranging projector 1 with upright posture is illustrated, but in the flowing for cooling the cooling air Ar cooling light supply apparatus 5 with furred ceiling posture when ceiling etc. arranges projector 1, be also same flowing.Unlike, because light supply apparatus about 5 reverses, cooling air Ar, by flowing switching part 85, flowing the first air channel portion 81 and the 3rd air channel portion 83 in, is discharged to the 4th escape hole, the 5th escape hole, the 6th escape hole by branch respectively.
And, because the 4th escape hole, the 5th escape hole, the 6th escape hole, as mentioned above, be formed as the surface level (XY plane) with respect to lighting optical axis A, export 711 with first row, that second row exports the 712, the 3rd escape hole 713 is roughly symmetrical, so same with the flowing of the cooling air Ar in area of space S inside, cooling action too.Therefore, omit the description.
According to described embodiment, following effect can be obtained.
In the light supply apparatus 5 of present embodiment, shell 57 (the first fixed frame 7A), there are 3 escape holes of discharging cooling air in area of space S, 3 escape holes, be formed as in the upside of luminotron 51, the center of first row outlet 711 is roughly consistent with lighting optical axis A, and second row outlet the 712, the 3rd escape hole 713, is set up in parallel in the both sides of first row outlet 711 respectively.Further, second row outlet the 713, the 3rd escape hole 713 and the second stream 712A, the 3rd stream 713A, be formed for first row outlet 711 symmetrical, tilt angle alpha.Thereby, it is possible to make cooling air Ar2, Ar3 of discharging from second row outlet the 712, the 3rd escape hole 713 and export the 711 cooling air Ar1 discharged from first row and collide in roughly the same position and mix.Thereby, it is possible to become the cooling air Ar4 comprised the effective sinuous flow of cooling, and the flow direction of easy controlled cooling model wind Ar4 (cooling air Ar1), flow direction is stablized, and cooling air can be made to keep straight on.Therefore, it is possible to cool luminotron 51 (illuminating part 511) efficiently.
In the light supply apparatus 5 of present embodiment, because the first row outlet 711 of shell 57 (the first fixed frame 7A), discharge cooling air Ar1 towards illuminating part 511, so, can directly cool illuminating part 511.Further, by colliding mixing cooling air Ar2, Ar3 from second row outlet the 712, the 3rd escape hole 713 of both sides, the cooling air Ar4 that this is mixed flows to illuminating part 511, can cool illuminating part 511 efficiently.
In the light supply apparatus 5 of the present embodiment, from the cooling air Ar1 that first row outlet 711 is discharged, due to cooling air Ar2, Ar3 of discharging from second row outlet the 712, the 3rd escape hole 713 of both sides, the area of space S between first row outlet 711 and illuminating part 511 collides mixing.Further, the position of mixing is the position (region B) than connecting first row outlet 711 and the centre position of illuminating part 511 and to export closer to first row 711 sides.Thus, from the cooling air Ar1 that first row outlet 711 is discharged, by cooling air Ar2, Ar3 of discharging from second row outlet the 712, the 3rd escape hole 713 of both sides, directly collide mixing, the flow direction of cooling air Ar4 (cooling air Ar1) can be stabilized in the more upstream side of area of space S.So, the adjustment of the position of cooling air Ar4 is more prone to.Therefore, it is possible to more efficiently cool illuminating part 511.
In the light supply apparatus 5 of the present embodiment, shell 57 (the first fixed frame 7A), has and is set to for 3 escape holes (first row outlet 711, second row outlet the 712, the 3rd escape hole 713) at roughly symmetrical, other 3 escape holes (the 4th escape hole, the 5th escape hole, the 6th escape hole) of the surface level (XY plane) by optical axis.Thus, be no matter carry the upright posture of the installation surface of table etc. or be fixed to any one posture of furred ceiling posture of ceiling etc. with upright posture up and down on the contrary, 3 escape holes of the upside becoming luminotron 51 can both be used to cool luminotrons 51.Therefore, it is possible to do not consider the posture difference (upright posture and furred ceiling posture) of light supply apparatus, cool luminotron 51 efficiently.Thereby, it is possible to realize the long lifetime of light supply apparatus 5.
Present embodiment projector 1, as mentioned above, by comprising the light supply apparatus 5 of the cooling effectiveness that can improve luminotron 51, the image light of the predetermined briliancy that can project for a long time.Further, can it doesn't matter plays this effect with the posture difference of projector 1 (upright posture and furred ceiling posture).
The projector 1 of present embodiment, because by the light supply apparatus 5 comprising the cooling effectiveness that can improve luminotron 51, when improve the briliancy of light supply apparatus main body 5A, the raising etc. of the maximization of such as cooling fan 4 and/or the driving voltage of cooling fan 4 can be suppressed with doing one's utmost, so the maximization of projector 1 can be suppressed, also noise can be suppressed.Further, when the luminescence efficiency of luminotron 51 is same as the prior art, the miniaturization of projector 1 can be realized, also can realize low noise.Further, can it doesn't matter plays this effect with the posture difference of projector 1 (upright posture and furred ceiling posture).
Further, be not defined in described embodiment, do not departing from the scope of this purport, all changes and/or improvement etc. can added and implement.Below variation is described.
In the light supply apparatus 5 of described embodiment, make cooling air Ar2, Ar3 of discharging from the second row of both sides outlet the 712, the 3rd escape hole 713 and export the 711 cooling air Ar1 discharged from first row and collide and mix.But be not limited thereto, 3 escape holes (such as, first row outlet 711, second row outlet the 712, the 3rd escape hole 713) be disposed adjacent also can be discharge cooling air, the structure of not colliding on the way respectively to illuminating part 511.According to structure so, from the cooling air that the escape hole of both sides is discharged, flow in the mode of the cooling air of discharging from sandwich from the escape hole of central authorities, the discharge direction of cooling air (flow direction) also can be made to be certain.Thereby, it is possible to the flow direction of controlled cooling model wind, cooling airflow can be made to the top of luminotron 51, cool luminotron 51 (illuminating part 511) efficiently.
In the light supply apparatus 5 of described embodiment, from the cooling air Ar1 that first row outlet 711 is discharged, than connecting the centre position of first row outlet 711 and illuminating part 511 closer to the position of first row outlet side 711, and exporting cooling air Ar2, Ar3 that the 712, the 3rd escape hole 713 discharges from second row and mix.But, be not limited thereto, cooling air Ar1, also can export area of space S between 711 and illuminating part 511 at first row, mix with cooling air Ar2, Ar3.
In the first fixed frame 7A of described embodiment, second row outlet 712 and the 3rd escape hole 713, for first row outlet 711, be formed slopely with angle [alpha].Thus, from cooling air Ar2, Ar3 that second row outlet the 712, the 3rd escape hole 713 is discharged, for the cooling air 1 of discharging from first row outlet 711, mixing is collided at roughly the same position (region B).But the angulation relative to first row outlet 711 of second row outlet 712 and the 3rd escape hole 713, second stream 712A and the 3rd stream 713A, also can be different.In other words, second row outlet 712 and the 3rd escape hole 713, second stream 712A and the 3rd stream 713A, the direction that also can export 711 to first row is formed slopely.Such as, also can for the cooling air Ar1 discharged from first row outlet 711, cooling air Ar2, Ar3 of discharging from second row outlet 712 and the 3rd escape hole 713 of both sides collide in different positions and cooling air Ar1, mixing, in result, as long as make the cooling air Ar1 (the cooling air Ar4 mixed) discharged from first row outlet 711 can flow just passable to cooling object.
In first fixed frame 7A of described embodiment, second row outlet 712 and the 3rd escape hole 713, and the second stream 712A and the 3rd stream 713A, for first row outlet 711, be formed slopely with angle [alpha].But be not limited thereto, also can be only that second row outlet 712 and the 3rd escape hole 713 export 711 for first row, being formed slopely with angle [alpha], also can be only that the second stream 712A and the 3rd stream 713A are formed slopely with angle [alpha].As long as be set as that cooling air Ar2, Ar3 and cooling air Ar1 collide, just same effect can be obtained.
In the light supply apparatus 5 of described embodiment, form second row outlet the 712, the 3rd escape hole 713, make to be discharged to the air quantity of cooling air Ar2, Ar3 of area of space S from second row outlet the 712, the 3rd escape hole 713, blast is roughly the same.But be not limited thereto, air quantity, the blast of cooling air Ar2, Ar3 also can be different.
The light supply apparatus main body 5A of described embodiment, is configured to have luminotron 51 and catoptron 52.But, be not limited thereto, also can having and be fixed on luminotron 51 to cover the roughly half in the front seal portion 512 of illuminating part 511, by shining the beam reflection in front seal portion 512 from illuminating part 511 to the so-called subreflector of catoptron 52 side, same effect can be played.
The light supply apparatus 5 of described embodiment, comprises parallelizing lens 54, but also can not comprise.
As the luminotron 51 of described embodiment, the lamp of all discharge-types of high briliancy luminescence can be adopted, such as, metal halide lamp, high-pressure mercury-vapor lamp, and extra-high-pressure mercury vapour lamp etc.
The optical unit 3 of described embodiment, adopts the so-called 3 plate modes of 3 optic modulating devices (liquid crystal panel 341) used corresponding to R light, G light, B light.But, be not limited thereto, also can adopt the optic modulating device of veneer mode.Further, the optic modulating device adopted for improving contrast can also be added.
The optical unit 3 of described embodiment, adopts the optic modulating device (liquid crystal panel of infiltration type) of infiltration type.But, be not limited thereto, also can adopt the optic modulating device of reflection-type.
The optical unit 3 of described embodiment, adopts liquid crystal panel 341 as optic modulating device.But, be not limited thereto, general, as long as according to modulate image information incident beam, such as, the optic modulating device of other modes such as the optic modulating device of micro mirror type can be adopted.Further, as the optic modulating device of micro mirror type, can adopt such as DMD (DigitalMicromirrorDevice: Digital Micromirror Device).
The optical unit 3 of described embodiment, as the illumination optics device 31 of the illumination homogenization of the light beam made from light supply apparatus 5 outgoing, adopts and comprises lens arra 311, the lens integral optical system of 312.But, be not limited thereto, also can adopt the integrating rod optical system comprising lamp guide.
Claims (7)
1. a light supply apparatus, is characterized in that, comprises:
There is the luminotron of the illuminating part of outgoing beam;
Fixing described luminotron, by the catoptron of the beam reflection from described luminotron; And
Shell, it receives described catoptron, has the area of space that the cooling air of the described luminotron of cooling is flowed,
Described shell comprises fixed frame and air channel,
At described fixed frame, be formed by described cooling air branch be discharged in described area of space, comprise first row outlet, second row outlet and 3 escape holes of the 3rd escape hole,
When from vertical, the center of described first row outlet is arranged on the position roughly consistent with the optical axis of described luminotron, and described second row outlet and described 3rd escape hole are configured in the position roughly symmetrical relative to described first row outlet,
Described fixed frame also has and is configured in and other 3 escape holes of described 3 escape holes with respect to the roughly symmetrical position of the surface level of described optical axis.
2. light supply apparatus according to claim 1, is characterized in that,
When from vertical, the outlet of described second row and described 3rd escape hole relative to described cooling air flow direction and to described first row outlet side inclination.
3. light supply apparatus according to claim 2, is characterized in that,
Described second row outlet and described 3rd escape hole, have equal angular respectively and tilt centered by described optical axis.
4. light supply apparatus according to claim 1, is characterized in that,
At described fixed frame, be provided with the opening be communicated with the exterior side of described catoptron.
5. light supply apparatus according to claim 1, is characterized in that,
Described air channel has: the first air channel portion extended in vertical, to be connected and to guide the second air channel portion of described cooling air to described 3 escape holes and be connected with described first air channel portion and guide the 3rd air channel portion of described cooling air to described 3 escape holes in addition with described first air channel portion, and described air channel is configured to roughly U-shaped roughly symmetrically with respect to the surface level of described optical axis.
6. a projector, is characterized in that, comprises:
Light supply apparatus according to any one of Claims 1 to 5; With
According to image information, modulate the optic modulating device of the light beam from described light supply apparatus outgoing.
7. projector according to claim 6, is characterized in that,
Described light supply apparatus comprises:
Described cooling air is directed to the first flow path of described first row outlet;
Described cooling air is directed to the second stream of described second row outlet; And
Described cooling air is directed to the 3rd stream of described 3rd escape hole,
When from vertical, described second stream and described 3rd stream relative to described cooling air flow direction and tilt to described first row outlet side.
Applications Claiming Priority (3)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP2011-148007 | 2011-07-04 | ||
| JP2011148007A JP5817261B2 (en) | 2011-07-04 | 2011-07-04 | Light source device and projector |
| CN201210208321.1A CN102866564B (en) | 2011-07-04 | 2012-06-19 | Light supply apparatus and projector |
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| Application Number | Title | Priority Date | Filing Date |
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| CN201210208321.1A Division CN102866564B (en) | 2011-07-04 | 2012-06-19 | Light supply apparatus and projector |
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| Publication Number | Publication Date |
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| CN105093790A true CN105093790A (en) | 2015-11-25 |
| CN105093790B CN105093790B (en) | 2017-04-12 |
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| CN201210208321.1A Active CN102866564B (en) | 2011-07-04 | 2012-06-19 | Light supply apparatus and projector |
| CN201510509307.9A Active CN105093790B (en) | 2011-07-04 | 2012-06-19 | Light source device and projector |
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| Application Number | Title | Priority Date | Filing Date |
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| CN201210208321.1A Active CN102866564B (en) | 2011-07-04 | 2012-06-19 | Light supply apparatus and projector |
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| US (2) | US9063400B2 (en) |
| JP (1) | JP5817261B2 (en) |
| CN (2) | CN102866564B (en) |
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| CN109307976A (en) * | 2017-07-28 | 2019-02-05 | 麦克赛尔株式会社 | Projector lamp unit |
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| JP6039878B2 (en) * | 2010-03-24 | 2016-12-07 | セイコーエプソン株式会社 | Light source device and projector |
| JP5620598B1 (en) * | 2014-03-10 | 2014-11-05 | パナソニック株式会社 | Light source unit and projector including the light source unit |
| CN107390462B (en) * | 2016-05-17 | 2020-07-03 | 中强光电股份有限公司 | Projector and light source module thereof |
| JP1567533S (en) * | 2016-06-24 | 2017-01-23 | ||
| JP1586323S (en) * | 2017-04-14 | 2017-09-19 |
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Also Published As
| Publication number | Publication date |
|---|---|
| US9229303B2 (en) | 2016-01-05 |
| CN102866564B (en) | 2015-09-23 |
| CN102866564A (en) | 2013-01-09 |
| JP5817261B2 (en) | 2015-11-18 |
| US20130010267A1 (en) | 2013-01-10 |
| JP2013015655A (en) | 2013-01-24 |
| CN105093790B (en) | 2017-04-12 |
| US9063400B2 (en) | 2015-06-23 |
| US20150253652A1 (en) | 2015-09-10 |
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